系统集成说明书

系统集成部-部门职责及岗位说明书山西企友软件系统集成部门职责及岗位说明书一、部门职责系统集成部门负责承接系统集成工程设计、施工、质量、安全、进度和成品保护等管理工作。

部门经理负责工程项目中的系统集成、楼宇智能化工作及本部门的管理工作。

高级项目经理与项目经理相比，承担的项目管理职责基本相似，主要差别在于项目规模、项目复杂度以及项目过程掌控等方面。

高级项目经理需在大项目、复杂项目以及多项目管理方面更具实战能力；同时能更有效地预见风险，在处理冲突和协调资源方面也需更具艺术性，从而更有效地控制项目过程。

二、部门组织结构系统集成部门组织结构如下：部门经理：负责工程项目中的系统集成、楼宇智能化工作及本部门的管理工作。

高级项目经理：承担大项目、复杂项目以及多项目管理方面的实战能力，预见风险，在处理冲突和协调资源方面具备艺术性，更有效地控制项目过程。

项目经理：对工程项目系统集成专业的质量、进度、成本、安全进行管理，对合同的执行进行监管；编制专业相应的工程资料。

系统规划师：根据项目规模和项目需求，组织和协调项目的总体规划、总体设计工作，对设计方案、设计方法、设计工具以及实现技术、项目实施质量和进度负责。

系统分析员：执行项目开发的程序与设计规范；对项目进行需求分析，制定需求说明书；制定和审核产品的详细设计；规划项目所需时间、费用以及其他资源；负责具体开发，解决技术难题；分析项目风险，制定应对计划；发现、分析、解决项目出现的问题；进行项目控制；负责产品设计的进度、质量和技术。

集成工程师：根据工程的情况，划分子系统，并针对不同的子任务，由项目经理提名，部门经理批准配备系统集成工程师组成一任务小组。

质量管理员：在项目经理的领导和安全质量检查科的指导下，检查、核定、上报工程质量；参加技术交底以及讨论和制定施工组织设计和单位工程质量设计；熟悉、领会设计图纸，掌握技术要领；深入现场检查工程质量，发现并提出问题，制止违规行为，并上报；抽查原材料、半成品、成品的质量，检查施工记录和试验结果；参加各部分工程的验收和鉴定，发现质量事故及时上报，参加事故调查，分析检查技术处理方案的执行。

铁道大学网络工程设计与系统集成信1103-2班组长：常永生组员：段向阳兴有永亮郭颂郭茂亮齐备第二实验楼网络需求分析说明书目录1：需求分析概述错误!未定义书签。

1.1系统所在地的地理布局错误!未定义书签。

1.2网络区域环境分析错误!未定义书签。

1.3网络系统功能概述错误!未定义书签。

2：网络系统整体构造图错误!未定义书签。

3综合布线设计错误!未定义书签。

3.1建筑群子系统错误!未定义书签。

3.2垂直子系统错误!未定义书签。

3.3水平子系统：错误!未定义书签。

3.4设备间子系统错误!未定义书签。

4 网络系统分层构建错误!未定义书签。

4.1 ：各分层构建错误!未定义书签。

4.2：设备选型错误!未定义书签。

1、中心三层交换机错误!未定义书签。

2、每楼层二层交换机错误!未定义书签。

5：综合布线系统保护错误!未定义书签。

1，过压与过流的保护错误!未定义书签。

2，干扰和辐射的保护错误!未定义书签。

3，综合布线系统接地错误!未定义书签。

4 ，防火墙需求错误!未定义书签。

6 系统测试与检测错误!未定义书签。

6.1 双绞线测试容错误!未定义书签。

6.2 光缆系统的测试错误!未定义书签。

6.3系统的平安性测试错误!未定义书签。

7 工程本钱预算错误!未定义书签。

第二局部：错误!未定义书签。

效劳器配置与网络链路通信错误!未定义书签。

A：效劳器配置错误!未定义书签。

B:网络链路的配置错误!未定义书签。

第一局部：工程需求详解1：需求分析概述1.1系统所在地的地理布局第二实验楼为信息学院综合办公场所，有会议室，自习室，教师办公室，研究生培养室，实验室，值班室，设备间等房间，集会议，学习，教学于一体，入驻人员多，网络需求各异。

1.2网络区域环境分析根据办公用途和网络需求的不同，可以将第二实验楼网络区域划分为一下几个区域：教师办公区域，实验室区域，教室区域，会议室区域。

1.3网络系统功能概述第二实验楼各区域网络需求各异，网络集成设计的目的是对计算机系统进展统一设计布线，实现部系统环境的集中管理；营造稳定，高效，平安的学习和办公环境，为师生提供开放灵活的信息通道；创立部交互和外部访问功能，实现各网络域间访问和对internet的访问；终端桌面应具有一定的带宽，能流畅下载各类资源；网络系统应具有防火墙等设置，能在一定程度上抵御外部的恶意攻击；系统在一定时期后，应能根据新的设备需求或用户需求对网络进展升级换代。

Customized LabX IntegrationLabX connect 2.0 Central archiving and maintaining of vari-ous different analysis data (e.g. HPLC data,GC data, titration data, weighing data etc.)by an information management system(IMS) offers many advantages such as en-hanced data security and has therefore be-come more and more important.LabX pro offers manual and automatic ex-port of data in configurable text format bydefault. It also allows manual import ofmethods, jobs and sample series. This issufficient for many data exchange applica-tions.If a high degree of customization or jobautomation is needed, METTLER TOLEDOrecommends the use of the optional LabXconnect toolkit. LabX connect allows flex-ible and tight integration of LabX pro intoone or multiple information managementsystem(s):• Customized and automated job man-agement: Creating jobs in LabX balanceand/or sample series in LabX titrationfrom within an information managementsystem• Customized and automated report ma-nagement: Export of reports (results) fromweighing jobs and titrationsLabX connect can be accessed program-matically by an IMS. To do so, a small scripthas to be written using a programminglanguage such as Visual Basic or C++.METTLER TOLEDO supplies all the techni-cal information necessary to write scriptsas well as some ready-made examples withLabX connect. If necessary, we also offerthis as a service.LabX connect technical overviewLabX connect basically is a so-called COM-component. Just like stand-ard LabX pro components (e.g. the graphical user interface GUI), LabXconnect has to be registered as a client at the central LabX pro compo-nent (DLBroker and/or BALBroker). It is recommended that LabX connectbe installed on the PC where the central LabX pro component (DLBrokerand/or BALBroker) is installed.Only users of the LabX pro administrator group are allowed to access theLabX pro database by an IMS via LabX connect. It is recommended that aspecial administrator account be created in LabX pro for this purpose.LabX connect offers two interfaces that can be accessed programmati-cally by its clients:• Method interface: Offers various methods that can be triggered from anIMS such as sending jobs to LabX balance or getting methods from LabXtitration (see table). Methods have to be executed from within an IMS.• Event interface: Offers various events an IMS can ‚listen‘ to such asreceiving results from LabX balance (see table). Events are sent auto-matically to an IMS when e.g. a new result is generated.LabXLabX connectLIMS, LDMS,ERP, CDS etc.IMSJobs ResultsSubject to technical changes© 09/2004 Mettler-Toledo GmbH Printed in Switzerland 51724384Marketing Analytical Chemistry Mettler-Toledo GmbH, Analytical CH-8603 Schwerzenbach, Switzerland Phone +41-44-806 77 11Fax +41-44-806 73 50Quality certificate ISO 9001Environmental management system ISO 14001Internet: Worldwide serviceMethod interfaceA LabX connect client (IMS) can call up a LabX connect method if this method has been implemented at the client. LabX connect methods that can be implemented include:Event interfaceA LabX connect client (IMS) can use the event interface of LabX connect if it has methods implemented for the offered events. LabX connect fires events to inform its registered clients about new results. The LabX connect event interface offers the follow-ing events:These events provide the following information for new,changed or restored data:。

软件系统集成实施作业指导书第1章项目概述 (4)1.1 项目背景 (4)1.2 项目目标 (4)1.3 项目范围 (5)第2章需求分析 (5)2.1 用户需求 (5)2.1.1 用户基本需求 (5)2.1.2 用户特定需求 (5)2.2 功能需求 (6)2.2.1 核心功能 (6)2.2.2 辅助功能 (6)2.3 系统功能需求 (6)2.3.1 响应时间 (6)2.3.2 数据处理能力 (6)2.3.3 系统容量 (6)2.3.4 系统稳定性 (6)2.4 系统约束条件 (6)2.4.1 技术约束 (6)2.4.2 业务约束 (7)2.4.3 资源约束 (7)第3章系统设计 (7)3.1 系统架构设计 (7)3.1.1 架构概述 (7)3.1.2 架构组件 (7)3.1.3 架构特点 (7)3.2 模块划分 (8)3.3 接口设计 (8)3.3.1 外部接口 (8)3.3.2 内部接口 (8)3.4 数据库设计 (8)3.4.1 数据库选型 (8)3.4.2 数据库表设计 (8)3.4.3 数据库索引设计 (8)3.4.4 数据库安全设计 (9)第4章系统开发 (9)4.1 开发环境准备 (9)4.1.1 硬件环境 (9)4.1.2 软件环境 (9)4.1.3 开发工具及软件版本 (9)4.2 编码规范 (9)4.2.1 代码命名规范 (9)4.2.3 版本控制 (10)4.3 系统开发流程 (10)4.3.1 需求分析 (10)4.3.2 设计阶段 (10)4.3.3 编码阶段 (10)4.3.4 测试阶段 (10)4.3.5 部署阶段 (10)4.4 系统模块实现 (10)4.4.1 用户管理模块 (10)4.4.2 业务处理模块 (10)4.4.3 数据管理模块 (10)4.4.4 系统监控模块 (10)4.4.5 辅助功能模块 (11)第5章系统集成 (11)5.1 集成策略 (11)5.1.1 总体规划 (11)5.1.2 分阶段实施 (11)5.1.3 优先级排序 (11)5.1.4 回归测试 (11)5.2 集成步骤 (11)5.2.1 需求分析 (11)5.2.2 技术选型 (11)5.2.3 设计集成方案 (11)5.2.4 开发与实施 (11)5.2.5 验收测试 (12)5.3 集成测试 (12)5.3.1 单元测试 (12)5.3.2 集成测试 (12)5.3.3 功能测试 (12)5.3.4 安全测试 (12)5.4 集成问题处理 (12)5.4.1 问题定位 (12)5.4.2 问题解决 (12)5.4.3 防范措施 (12)5.4.4 持续优化 (12)第6章系统测试 (12)6.1 测试计划 (12)6.1.1 目的 (12)6.1.2 范围 (13)6.1.3 测试资源 (13)6.1.4 测试策略 (13)6.2 功能测试 (13)6.2.1 目的 (13)6.3 功能测试 (14)6.3.1 目的 (14)6.3.2 测试内容 (14)6.4 安全性测试 (14)6.4.1 目的 (14)6.4.2 测试内容 (14)第7章系统部署 (14)7.1 部署策略 (14)7.1.1 总体部署规划 (14)7.1.2 部署步骤 (15)7.2 硬件环境准备 (15)7.2.1 硬件设备选型 (15)7.2.2 硬件设备配置 (15)7.2.3 硬件设备调试 (15)7.3 软件环境配置 (15)7.3.1 操作系统安装 (15)7.3.2 数据库安装与配置 (15)7.3.3 中间件安装与配置 (15)7.3.4 应用软件部署 (16)7.4 系统上线 (16)7.4.1 系统切换 (16)7.4.2 系统运维 (16)第8章用户培训与验收 (16)8.1 培训计划 (16)8.1.1 培训目标 (16)8.1.2 培训时间 (16)8.1.3 培训对象 (16)8.1.4 培训师资 (16)8.2 培训内容 (16)8.2.1 系统概述 (16)8.2.2 功能模块培训 (17)8.2.3 系统管理 (17)8.2.4 常见问题及解决方案 (17)8.2.5 安全防护 (17)8.3 培训方式 (17)8.3.1 理论培训 (17)8.3.2 实操培训 (17)8.3.3 在线培训 (17)8.3.4 互动交流 (17)8.4 系统验收 (17)8.4.1 验收标准 (17)8.4.2 验收流程 (17)8.4.3 验收内容 (17)8.4.5 验收结果 (17)第9章系统维护与优化 (17)9.1 系统维护策略 (18)9.1.1 维护目标 (18)9.1.2 维护内容 (18)9.1.3 维护流程 (18)9.2 故障处理 (18)9.2.1 故障分类 (18)9.2.2 故障处理流程 (18)9.2.3 应急预案 (19)9.3 系统优化 (19)9.3.1 优化目标 (19)9.3.2 优化内容 (19)9.3.3 优化流程 (19)9.4 版本更新 (19)9.4.1 版本更新原则 (19)9.4.2 版本更新流程 (19)第10章项目总结与评价 (20)10.1 项目总结 (20)10.1.1 项目实施过程回顾 (20)10.1.2 项目成果总结 (20)10.1.3 项目存在的问题 (20)10.2 项目评价 (20)10.2.1 项目目标评价 (20)10.2.2 项目质量评价 (21)10.2.3 项目效益评价 (21)10.3 项目经验积累 (21)10.4 改进措施与建议 (21)第1章项目概述1.1 项目背景信息化建设的不断深入，我国企业对于软件系统的依赖程度日益提高。

目录ERP系统操作说明 (1)1、ERP简介 (1)2、登录系统 (2)3、系统管理模块 (2)4、生产管理模块 (6)5、财务工时 (10)6、库房管理模块 (11)7、资源管理模块 (14)8、订单管理模块 (16)ERP系统操作说明1、ERP简介近年来，ERP系统在全球范围内的企业里迅速推广实施并取得了巨大成功。

ERP作为一种新兴的企业管理理论和模式，以其先进的计划经营管理理念和高度集成的信息化管理等优点，正被越来越多的企业所接受和普遍应用。

初次接触ERP的人，首先都会出现疑问通常都是：“何谓ERP？”、“SAP 又是什么？”以及“PM模块有哪些功能及作用？”等等。

下面首先简单介绍一下ERP以及SAP的基本概念。

1.1、什么是ERP？ERP(Enterprise Resource Planning)就是“企业资源计划”，包括企业内部资源和外部资源。

内部的资源如，人力资源、物料资源、资金资源、时间资源，外部的包括客户资源、供应商资源等。

ERP就是将这些资源整合，从而使企业的采购、生产、销售、库存等得到优化管理。

ERP系统是一套集成了ERP管理理念与企业具体业务流程、借助于ERP计算机应用软件来实现新型企业管理模式的企业资源管理系统。

用以支持企业主要的核心业务流程，通常包括：财务会计、生产计划、销售分销、物料管理、工厂维护、人力资源等；整体、实时地提供与各项业务相关的数据，包括以前难以及时获取的数据；可以向领导者提供企业整体的状况，反映企业的盈利能力和各项业务活动的情况；所有业务处理和活动通过统一的数据库进行及时更新，以改善用户存取、提高业务信息质量、减少数据校验，内嵌了可配置的行业最佳业务模式。

1.2、什么是ERP系统？ERP系统集成了ERP管理理念与企业具体业务流程、借助于ERP软件对企业的多种资源进行计划，以物流、资金流、信息流 (“三流”) 合一的高度集成方式来帮助企业实现自动化管理模式的资源管理系统，用以支持企业主要的核心业务流程，通常包括：财务会计、生产计划、销售分销、物料管理、工厂维护、人力资源等。

THE POWER OF INFORMATION INTEGRATION IN INDUSTRIALAUTOMATION ALLIED TO IEC 61850How to make industrial automation to be more efficient, using information to integrate Process andElectrical Automation systems based on IEC 61850 StandardAlan Fernandes Teixeira 1and Leandro Henrique Monaco 21Alan Fernandes Teixeira is application engineer of electrical automation at the mining segment on Process Automation division in ABB Brazil, and he’s graduated in Electrical Engineering – Electrotechnics on São Judas Tadeu University. 2Leandro Henrique Monaco is electrical automation engineering manager at the mining segment on Process Automation division in ABB Brazil, and he’s graduated in Electrical Engineering – Automation and Control and Master of Science in Systems Engineering by Polytechnic School of University of São Paulo.1 – IntroductionA substation automation system is basically composed of elements to protect equipment, to control switches, circuit breakers and transformers, as well as supervision and monitoring of the status from all involved equipment, respecting each equipment features and possible limitations.There are two typical scenarios when it comes to substation automation: the first relates to new plants, in which the designer can create a concept for the plant automation, define the best network and infrastructure topology, in order to mitigate the risks, get complete information of the electrical system and optimize the system implementation costs; but there is also the second scenario, where existing plants are in production (some for many years) and without dedicated infrastructure to electrical automation. In these plants it is common to find several automation systems for each substation, using usually PLCs, supervisory systems from various vendors with little or no information exchange because, as a rule, there isn’t a central system that manages all substations, making plant control and management to be much harder.In these days, it’s essential to have an automation system capable of integrating all available information into a single platform, regardless of the model chosen for a particular protection relay or the chosen protocol, and making information available anywhere in the plant so as to facilitate remote operation. Moreover, the possibility of integrating the substation automation system to the process control system enables a single database and complete plant management, both for operation and maintenance.Figure 1. Leandro Monaco and Alan Fernandes: "It’s essential to have an automation system capable of integrating all available information into a single platform".2 – Electrical Automation Integrated System2.1 IEC61850 standardWith the evolution of substation equipment, such as IEDs (Intelligent Electronic Devices) and digital meters, and with the advent of IEC 61850, the possibility of having the equipment integration from different vendors in a single system becomes reality. In the case of plants in production, such integration allows several substations with IEDs from different vendors to be grouped into a single system, because they all speak "the same language". This makes operation and maintenance of the electrical system to be easier, bringing information from the whole plant. This is called interoperability.IEC 61850 standard can be misunderstood as a communication protocol; however, it goes far beyond that. In order to standardize the complete communication concept in substation automation, the standard is based on three goals: interoperability; freedom of configuration and long-term stability. Interoperability is the ability for IEDs from different vendors to communicate with each other; freedom of configuration is the ability of each vendor to use different methods and philosophies in the internal programming of the logic performed by IEDs, as long as the data exchange between them obey the goal of interoperability, and concerns the freedom to allocate functions to one or more IEDs during the substation project by the engineering team; and long-term stability refers to the ability of communication protocols to remain updated in front of technological advances.For that, the way devices exchange data is standardized, using the concept of Logical Node. According to its definition, a Logical Node is "the smallest part of a function that exchanges data" (IEC 61850-SER ed1.0, 2010). Each substation function is broken into smaller parts, and data exchanged between each part is standardized, without affecting the inner operation of each part. This ensures interoperability and freedom of configuration.In order to allow information exchange between devices, two communication protocols are defined: one for communication between IED and supervisory system, called MMS; and another for fast communication between IEDs for interlocks and logic selectivity, called GOOSE. MMS protocol (Manufacturing Message Specification) is used for communication between IEDs and supervisory system based on client-server philosophy, i.e., the IED becomes a server for the information available in it and the supervisory system becomes a client for that information; it is used for supervision and operation information, being a non-critical time communication. GOOSE protocol (Generic Object Oriented Substation Events) is used to exchange the critical time information between IEDs inside network for protection, interlocking and logic selectivity purposes; this communication is based on MAC addresses, and allows the transmission of packets in the network as fast as 3 ms. GOOSE protocol is one of the great advantages of IEC 61850, reducing the amount of wiring between cubicles of a substation to perform logic selectivity schemes, greatly reducing installation and maintenance costs.All communication between the devices is over Ethernet network protocol, globally known in enterprise environments and now also in the industry ones. At this point, it’s important to notice the importance of network configuration on an industrial project. Today it is no longer possible to foresee an industrial scenario without communication possibilities offered by industrial networks. The need for information integration (achieved long ago in IT scenarios) becomes crucial in industrial scenarios, and will become increasingly essential in the near future.Figure 2 presents a generic topology that addresses the minimal concepts of an electrical automation project. One can see the substation equipment such as circuit breakers, switchgears etc., (given by iPASS Switchgear boxes) as well as measuring instruments like CTs and VTs (MUPX and MUPY boxes), physically connected to the protection and control IEDs (given by boxes Bay Controller, Prot X and Prot Y), which are connected to an Ethernet switch. The switches of each substation are part of a network that is connected to protocols gateways and to human-machine interface equipment (HMI). GPS devices are also commonly used to synchronize time on the IEDs in order to allow the sequence of events (SoE).Figure 2-Network Topology of the Automation System in IEC 61850.2.2 Advantages for the electrical systemAs the intelligence for protection and logic selectivity is distributed to the IEDs (which can now communicate with each other), the DCS can be in charge of power management and other logics that require a higher level system view. Some functions such as load shedding, generator control, turbine management, transformer tap control can be run on the DCS, and some controllers have GOOSE interface, achieving operating times faster than 10 ms, thus reducing selectivity adjust times, taking care of mechanical health of cabling, circuit breakers, switchgears and machines, without using hardwires.Another great advantage with the advent of IEC 61850: a trend of all equipment in the electrical system to suit the communication according to IEC 61850, which initially started only in IEDs. Today we already have digital meters, and soon CTs and VTs will emerge in the market with communication drivers, plus circuit breakers and switchgears, i.e., it will be possible to see the system more and more integrated, through a single standard of network connection and the electrical system itself.3 – Case study: Itabira integrated systemIn order to show how the information integration brought by the use of IEC 61850 concepts, especially interoperability, some features of a real system already implemented are here illustrated. This section is about the electrical automation integrated system of Itabira, the iron ore beneficiation plant located in the city of Itabira-MG, Brazil. In this system, six main substations were integrated into a single system, providing information ofhigh voltage equipment such as 230 kV and 69 kV up to medium voltage as 13.8 kV and 4.16 kV. The six substations are located in different places around the city, separated by distances up to 30 km from the central operating room. The IEDs are from two different vendors, due to the fact that substations retrofits were made at different periods and under different contracts.The supervisory system is from a third vendor, and it communicates with the IEDs via MMS protocol for system operation and supervision. Moreover, due to the large distance between the substations and the risk of losing communication, it was used a contingency operation solution in each substation, consisting of a human-machine interface touch screen panel and a controller with GOOSE interface, being able to receive data from and send commands to the IEDs, in order to ensure remote operation of circuit breakers and switches. This guarantees the main project concept: to keep the operator away from the electrical cubicle, and consequently from the electrical risk.Figure 3 illustrates the generic automation system topology used in Itabira. One can see how the two interfaces of the automation system to the IEDs, using both protocols proposed by IEC 61850.Figure 3. Automation System Network Topology, with two interfaces to IEC 61850 devices.Due to greater amount of information available in the IED network because of digital communication protocols (IEC 61850 network in Figure 3, for better understanding), besides the possibility of communication between IEDs from different vendors located in substations away from each other, it was possible to get an integration level of all the available information in the same system, so the electrical system operation is possible regardless of where the operator is. The information centralization through Ethernet networks also allowed creating a remote operating room, from where there is view of everything that’s happening in the system. Moreover, system maintenance also become easier because the IEDs can be parameterized and configured from anywhere with access to the automation system, and if it’s necessary to go to the failure spot, the technician will be able to get there with more details about what happened. So the three main project concepts were achieved: remote operation guaranteed; remote maintenance; and integration of information in a single system.4 – Electrical and Process automation integration on the same systemThe adoption of Ethernet-based systems makes open protocols to be used more often, creating more complete automation systems, thus optimizing costs and information availability on the entire plant.In the past, and in many plants in operation nowadays, there is still a strong separation between the electrical automation system, responsible for power management, and the process automation system, more focused on the production, in a way that there is little or no exchange of information between them. Today one can understand it’s an increasing trend to have a single system managing the entire plant, looking for both Process and Electrical automation with excellent performance and availability through a unique DCS system.Figure 4 presents a topology that can best show the new model.Figure 4. Integrated Topology for Process and Electrical Automation Systems, using IEC 61850.4.1 Advantages for the process control systemAmong the advantages that can be pointed from this integration, cost reduction is the first one, because servers, software and hardware are optimized. Besides that, indirect costs such as training and investment shared between areas. In addition, new features can be implemented from the combination of information.An example of this possibility is the adoption of medium voltage protection relays for motors control in IEC 61850, in which it’s possible to use all the benefits of GOOSE messages between IEDs without losing the interaction with process equipment, such as instrumentation, valves, and inverters.A real case for this functionality can be given by a conveyor that handles ore, steel or any other goods.Usually in these cases, big medium voltage motors are responsible for the operation, and if one of them failures the replacement won’t be immediate, causing damage and loss of production. Using features from substation automation environment, like logic selectivity and interlocks, it’s possible to preserve their health.Here are some pictures that illustrate how these features can be applied.Figure 5. Conveyor motors interlocking according to a traditional fashion.Figure 6. Conveyor motors interlocking using IEC 61850.Figures 5 and 6 show that using IEC 61850 it is possible to switch off motors before overcurrent effects are detected by CTs, lowering the impact on the motors, thus increasing their life cycle. This reduces the chances of damaging windings or more serious problems that would demand replacement and longer maintenance time, resulting in loss of production for longer periods.5 – ConclusionThe availability and the quality of information are assumptions that guide the day-by-day, increasing the level of demand in all areas including the industrial environment, and causing dramatic changes in established practice that are becoming obsolete.With the advent of IEC 61850, more information is collected from the electrical automation system, due to Ethernet communication and data standardization, enabling interoperability, allowing free choice of IED vendors in order to best suit the substation environment. And with such a wealth of data available in supervisory systems, the information integration between automation systems allows multidisciplinary decisions to be taken by putting together the electrical control with process control needs. This provides more efficiency and bigger production availability, current concerns in the competitive global market. Moreover, applications developed typically for electrical environment can be used in process control system, which can be seen in the examples given.In this scenario one can assure the advent of IEC 61850 provided a huge evolution in quality, changing the way we think of automation: automation based on the information integration.6 – ReferencesIEC 61850-SER ed1.0: Communication networks and systems in substations - ALL PARTS; Switzerland: International Electrotechnical Commission, 2010. MONACO, L.H. Integração com IEC61850 – Fluxo de Engenharia. In: 13º. Seminário de Automação de Processos ABM 2009, São Paulo, Brazil, Set 2009 (in Portuguese)MONACO, L. H. Estudo de caso: sistema integrado de automação de subestações usando a norma IEC61850 aplicado na usina da Vale Itabira-MG. In: 15º Congresso Internacional de Automação, Sistemas e Instrumentação, Brazil Automation ISA 2011, São Paulo, Brazil, 8-10 Nov 2011 (in Portuguese).。

一、概述：1．本控制器配有四芯液晶显示线控器。

功能强大。

控制线可延长50米左右。

抗干扰能力强，使太阳能热水器的安装变得极为简单，省工省料。

特别为高端用户的热水供应打造。

2．适用于自然循环及强制循环的平板家用太阳能热水器，真空管太阳能热水器。

太阳能热水工程3．适用电源AC220V±10％、50HZ。

4．正常温度使用范围：－15℃—80℃。

二、主要功能：1．循环控制功能2．定时进水阀控制3．定时放水阀控制（可控制水流式水泵自动加压及回水）4．定时回水阀控制5．定时电加热控制6．手动操作7．液晶显示功能8．感温器故障自检功能9．循环过载保护功能10．电加热故障保护功能11．水流检测功能13．自检功能14．运行模式：加热15．北京时间显示功能16．定时开机、定时关机17．4档水位控制及显示三、控制结构：控制由主控板、线控器组成。

主控板面板CN1CN2CN3CN4CN5CN6CN7CN8CN9+-A BNLJINHUIFANGBENGHOTG U OH O TS H U I O T -1C O M 4mm 4145mm110mmM四、键盘设置：开/关设置定时温度M1．开/关键：按此键控制控制器的开机或关机。

2．设置键：（请见副表一）长按此键5S 则进入参数设置，然后配合加/减键进入参数设置（P0—P6）设置。

3．温度键（TEMP ）：（请见副表二）操作此键可以查询温度。

4．增键（∧）：直接操作此键,则进行设定温度的增加。

5．减键（∨）：直接操作此键,则进行设定温度的减小。

6．定时键（TIMER）：长按此键5S则进入当前时钟调整, 先是小时位闪烁，经增/减键将时钟调整到当前小时；再按此键则进入分钟位闪烁，经增/减键将时钟调整到当前分钟；再按此键则退出时钟设置。

以上操作当中如果停止操作5秒钟，则自动退出设置。

单操作此键,则进入主机定时设置.则加热1时间段定时开小时位闪烁,(闪烁时操作加/减键设置数据)再按该键,则加热1时间段定时开分钟位闪烁,(闪烁时操作加/减键设置数据)再按该键,则加热1时间段定时关小时位闪烁,(闪烁时操作加/减键设置数据)再按该键,则加热1时间段定时关分钟位闪烁,(闪烁时操作加/减键设置数据)再按该键,则加热2时间段定时开小时位闪烁,(闪烁时操作加/减键设置数据)再按该键,则加热2时间段定时开分钟位闪烁,(闪烁时操作加/减键设置数据)再按该键,则加热2时间段定时关小时位闪烁,(闪烁时操作加/减键设置数据)再按该键,则加热2时间段定时关分钟位闪烁,(闪烁时操作加/减键设置数据)再按该键,则放水1时间段定时开小时位闪烁,(闪烁时操作加/减键设置数据)再按该键,则放水1时间段定时开分钟位闪烁,(闪烁时操作加/减键设置数据)再按该键,则放水1时间段定时关小时位闪烁,(闪烁时操作加/减键设置数据)再按该键,则放水1时间段定时关分钟位闪烁,(闪烁时操作加/减键设置数据)再按该键,则放水2时间段定时开小时位闪烁,(闪烁时操作加/减键设置数据)再按该键,则放水2时间段定时开分钟位闪烁,(闪烁时操作加/减键设置数据)再按该键,则放水2时间段定时关小时位闪烁,(闪烁时操作加/减键设置数据)再按该键,则放水2时间段定时关分钟位闪烁,(闪烁时操作加/减键设置数据)再按该键,则进入自动上水定时开小时位闪烁,(闪烁时操作加/减键设置数据)再按该键,则进入自动上水定时关分钟位闪烁,(闪烁时操作加/减键设置数据)再按该键,则退出定时时间设置 (当定时开和定时关时间完全相同时,则无该定时时钟段运行功能)五、运行功能说明：1．循环控制功能：（T集热—集热板温度、T循环—下循环温度、P1—集热板回差温度）当T集热≥T循环 + P1时，循环水泵工作；当T集热≤T循环+ P4时，循环水泵关闭。

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第二部分医院信息系统集成平台接口设计说明目录1引言 (3)1.1标识 (3)1.2系统概述 (3)1.3文档概述 (3)1.4基线 (4)2引用文件 (4)3接口设计 (5)3.1接口范围 (5)3.2逻辑架构图 (5)3.3系统软件部署 (6)3.4技术架构图 (6)3.4.1数据集成 (6)3.4.2功能集成 (7)3.4.3实现说明 (8)3.5HIS系统相关接口 (9)3.5.1病人入病区场景 (9)3.5.2病人取消入区场景 (13)3.5.3病人基本信息变化场景 (15)3.5.4病人转科信息场景 (18)3.5.5科内病人转床场景 (20)3.5.6病人出院场景 (22)3.5.7出院返回场景 (25)3.5.8病人费用变化场景 (27)3.5.9调阅帐务查询场景 (29)3.5.10住院医嘱场景（护嘱） (31)3.6LIS系统相关接口 (36)3.6.1发送LIS申请场景 (36)3.6.2采集LIS报告数据场景 (39)3.6.3调阅LIS报告场景 (42)3.7PACS系统相关接口 (44)3.7.1发送PACS申请场景 (44)3.7.2采集PACS文字报告场景 (47)3.7.3调阅完整PACS报告场景 (50)3.8医技系统相关接口 (52)3.9病案统计相关接口 (52)3.9.1场景描述 (52)3.9.2数据内容 (52)3.9.3交互流程 (53)3.9.4实现方式 (53)3.10合理用药系统相关接口 (53)3.10.1场景描述 (53)3.10.2数据内容 (54)3.10.3交互流程 (54)3.10.4实现方式 (54)3.11区域信息平台相关接口 (55)3.11.1场景描述 (55)3.11.2数据内容 (55)3.11.3交互流程 (55)3.11.4实现方式 (55)3.12调阅电子病历场景 (55)3.13公共基础数据 (57)3.13.1基础数据全部上传场景 (57)3.13.2基础数据变更场景 (59)4需求的可追踪性 (61)5注解 (62)1引言1.1标识1.2系统概述现在医院信息化建设的发展，不可能完全靠一家开发商完成医院所有信息系统的开发，要实现各个医院临床信息、医院管理信息系统、电子病历系统、LIS、PACS、病案管理系统的数据交换和业务协同，实现系统间的无缝连接，建设基于电子病历的医院信息系统，开发出一个医院信息系统接口集成平台，去统一管理、实现各个信息系统间的数据交互，并用统一的标准化的接口方去实现系统间的业务协同和功能集成。